ISSN 1671-3710
CN 11-4766/R
主办:中国科学院心理研究所
出版:科学出版社

心理科学进展 ›› 2026, Vol. 34 ›› Issue (1): 108-122.doi: 10.3724/SP.J.1042.2026.0108 cstr: 32111.14.2026.0108

• 研究前沿 • 上一篇    下一篇

内隐情绪调节的认知神经机制

高可翔, 汤煜尧, 张岳瑶, 张丹丹()   

  1. 四川师范大学脑与心理科学研究院, 成都 610066
  • 收稿日期:2025-04-24 出版日期:2026-01-15 发布日期:2025-11-10
  • 通讯作者: 张丹丹, E-mail: zhangdd05@gmail.com
  • 基金资助:
    国家自然科学基金面上项目(32271102)

The cognitive and neural mechanisms of implicit emotion regulation

GAO Kexiang, TANG Yuyao, ZHANG Yueyao, ZHANG Dandan()   

  1. Institute of Brain and Psychological Sciences, Sichuan Normal University, Chengdu 610066, China
  • Received:2025-04-24 Online:2026-01-15 Published:2025-11-10

摘要:

内隐情绪调节是个体在无意识监督或不具有明确的情绪调节意图下改变情绪的过程。与外显情绪调节相比, 内隐情绪调节对前额叶执行控制系统的依赖度更低。本文在已有的内隐情绪调节二分类基础上, 提出了新的三分类理论框架, 将内隐情绪调节分为:自动化、任务附加型、内隐目标驱动三个内隐情绪调节种类。其中, 自动化内隐调节以恐惧消退为代表, 依赖腹内侧前额叶直接调控杏仁核; 任务附加型调节发生在情绪标签、情绪Stroop等任务中, 外侧前额叶通过认知控制系统, 在任务执行过程中附带地调节情绪; 内隐目标驱动型调节则通过启动或内隐训练, 激活内隐情绪调节目标追求, 既可借助腹内侧前额叶实现自动化调节, 又可在一定条件下调用外侧前额叶的认知控制功能实现受控情绪调节。神经调控研究证实, 腹内侧前额叶是内隐情绪调节的关键性因果脑区, 其功能增强有望改善抑郁和焦虑患者的内隐情绪调节能力。本文提出的三分类理论框架突出了内隐情绪调节的多样化机制, 拓展了情绪调节理论的动态性理解, 同时也为情绪障碍患者的临床干预提供了有潜力的新途径。

关键词: 情绪调节, 内隐情绪调节, 抑郁, 焦虑, 神经调控

Abstract:

Explicit emotion regulation, the conscious and deliberate process of altering one's emotional state, is fundamental to mental health but is also cognitively demanding, consuming significant executive resources. In contrast, implicit emotion regulation (IER) operates without conscious intent or awareness, offering a more adaptive and less resource-intensive means of managing emotions. Despite its importance, the cognitive and neural mechanisms of IER remain poorly understood. This paper introduces a novel theoretical contribution by proposing a new tripartite framework for IER that moves beyond existing static models. By emphasizing the dynamic nature of regulatory processes, this framework provides a more nuanced understanding of how emotions are managed unconsciously. Importantly, the framework is supported by converging evidence from neuromodulation and neuroimaging studies, which demonstrate the neural mechanisms underlying implicit regulation. Together, these advances offer new directions for clinical interventions, particularly for mood and anxiety disorders.
The primary innovation of this study lies in the proposed tripartite classification of (IER). While previous models typically distinguish between “implicit automatic” and “implicit controlled” regulation, they do not fully account for the fact that some emotion regulation mechanisms may involve both processes, with the balance between them shifting depending on the context. Our framework addresses this by organizing IER into three categories based on the level of cognitive control involved: (1) Automatic IER, (2) Task-Incidental IER, and (3) Implicit Goal-Driven IER. This refined classification extends previous dual-process and multi-level models by considering how these mechanisms can interact and change across different situations.
Automatic Implicit Emotion Regulation represents the most autonomous form of IER, operating without reliance on top-down cognitive control. This category includes processes driven by experience-based learning and value updating, such as fear extinction and reinforcer revaluation. In fear extinction, for example, repeated exposure to a conditioned stimulus without an aversive outcome reduces the fear response. This process occurs unconsciously, reflecting an adaptive update of stimulus-outcome associations. Neuroimaging studies consistently link this type of regulation to a neural circuit involving the ventromedial prefrontal cortex (VMPFC), amygdala, and hippocampus. The VMPFC plays a crucial role in inhibiting amygdala activity, thereby suppressing fear expression, while the hippocampus encodes contextual information that modulates this process. This mechanism is highly efficient, producing lasting regulatory effects without depleting cognitive resources. Recent neurostimulation studies have provided causal evidence for this process, with techniques such as transcranial magnetic stimulation (TMS) and transcranial direct current stimulation (tDCS) showing that VMPFC activation can enhance fear extinction and emotion regulation by downregulating amygdala responses.
Task-Incidental Implicit Emotion Regulation occurs as a byproduct of engaging in cognitive tasks that require executive control. Unlike automatic IER, this form relies on top-down control, though emotion regulation is not the primary goal. Instead, emotion regulation results incidentally from task execution. Classic examples include affect labeling, the emotional Stroop task, and emotional Go/No-go tasks. In affect labeling, for instance, labeling an emotional stimulus (e.g., identifying the emotion on a face) inadvertently dampens the emotional response. This effect is mediated by cognitive control regions, primarily the dorsolateral prefrontal cortex (DLPFC) and ventrolateral prefrontal cortex (VLPFC). These regions are activated to resolve conflicts or maintain focus, exerting inhibitory control over emotion-generating areas like the amygdala. This mechanism illustrates how the cognitive system adapts by prioritizing task performance and suppressing distracting emotions. Neurostimulation research has further highlighted the role of these regions in emotion regulation, showing that stimulating the DLPFC can enhance regulation in tasks like the emotional Go/No-go, where cognitive control enhances emotional inhibition.
Implicit Goal-Driven Emotion Regulation is the most novel and theoretically significant category proposed in this framework. It lies in a dynamic middle ground between automatic and controlled processes. In this form of IER, a regulatory goal (e.g., “stay calm,” “reappraise”) is activated unconsciously, often via priming or implicit training. Once activated, this goal guides emotional responses without requiring sustained conscious effort. This mechanism is flexible, recruiting both cognitive control pathways (involving the DLPFC/VLPFC) and more automatic pathways (involving the VMPFC), depending on situational demands and available cognitive resources. Neurostimulation studies have provided causal evidence for this flexibility, showing that enhancing the excitability of either the DLPFC/VLPFC or the VMPFC can boost the effectiveness of implicitly primed reappraisal strategies. These findings underscore the system's adaptive capacity to shift between controlled and automatic modes, optimizing for efficiency.
The clinical implications of this framework are significant, especially for treating depression and anxiety, both of which are characterized by impaired explicit emotion regulation and depleted cognitive resources. The three distinct IER pathways provide tailored therapeutic targets. For anxiety disorders involving specific fears, interventions leveraging automatic IER, such as exposure therapy, can be enhanced with neurostimulation targeting the VMPFC to facilitate fear extinction. For depression, where patients struggle with motivation and executive function, task-incidental IER offers a means to regulate mood indirectly by engaging in structured cognitive tasks. Most promisingly, implicit goal-driven IER provides a low-effort approach to train adaptive regulatory strategies. By priming reappraisal goals, therapists can help patients cultivate healthier emotional responses without the cognitive burden of explicit instruction. Neurostimulation targeting key regulatory nodes—particularly the VMPFC, which appears to be a central hub across IER types—presents a powerful tool to directly enhance these implicit capacities.
In conclusion, this study's central contribution is the proposal of a dynamic tripartite framework that advances our theoretical understanding of implicit emotion regulation. By defining automatic, task-incidental, and implicit goal-driven IER, it maps the diverse cognitive and neural pathways involved in unconscious emotional management. This framework not only integrates existing evidence but also provides a clear roadmap for future research and the development of innovative, mechanism-based clinical interventions for individuals suffering from emotional disorders.

Key words: emotion regulation, implicit emotion regulation, depression, anxiety, neuromodulation

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